NIH | National Cancer Institute | NCI Wiki  

Error rendering macro 'rw-search'

null

Versions Compared

Key

  • This line was added.
  • This line was removed.
  • Formatting was changed.

...

The Pilot Challenges sub-project of CTIIP seeks to make available a set of integrated data from TCIA and TCGA for three complementary "pilot challenge" projects from clinical imaging, co-clinical imaging, and digital pathology. As opposed to a more rigorous "grand" challenge, each pilot challenge will function as a proof of concept to learn how to scale challenges up in the future. Each challenge will use the informatics infrastructure created in the Digital Pathology and Integrated Query System sub-project and allow participants to validate and share algorithms on a software clearinghouse platform such as HUBZero.

and support precision medicine and clinical decision making tools, including correlation of imaging phenotypes with genomics signatures.

 

develop knowledge extraction tools

Medical Imaging Challenge Infrastructure (MedICI), a system to support medical imaging challenges.

 

and comparing the decision support systems for clinical imaging, co-clinical imaging, and digital pathology,

a)       Leverage and extend the above platform and data systems. The aims are fashioned as four complementary “Pilot Challenges”.

...

The pilot challenges are as follows:

  • Clinical Imaging: QIN image data for several modalities/organ systems are already hosted on TCIA. Pilot challenge projects are being explored for X-ray CT, DWI MRI and PET CT similar to the HUBzero pilot CT challenge project.

...

  • Pre-clinical / Co-clinical Imaging

...

  • : Leveraging the Mouse Models of Human Cancer Consortium (MHHCC) Glioblastoma co-clinical trials with associated ’omics data sets from the Human Brain Consortium. This proof of concept will focus on bringing together ‘omics and imaging data into a single platform.

...

  • Digital Pathology

...

  • Clinical Support: Leveraging Aims1-3 develop open source image analysis algorithms which complement ‘omics data sets and provide additional decision support.

iv)     Enable community sharing of algorithms on a software clearinghouse platform such as HubZero.

 

Medical Image Computational and computer-assisted Intervention: MICCAI

Interventions in tumors, cardiology, etc that are image-based

Mass General will guide the pilots

Ground truth: find the compatibility of the informatics that we need to run pilots. Take images out of TCIA, CGA, clinical data and compare them.

Jasharee doing MICCAI Challenge in Munich. Segmentation of nuclear imaging in pathology. Combined radiology and pathology classification.

Want to be able to say that these informatics allow us to compare the pathology, rad, co-clinical findings.

Document the approach, technology, application to do a MICCAI challenge the way Jaysharee does it. See their order of march.

Challenges: read one-page document. We want to use pathology images in the challenges. The tool used to display the markup and annotations (for the pathology images) is caMicroscope. There will be a challenge in which animal model data will be used. Give people images they have never seen before and develop algorithms (like to circle all the nuclei). Ground truth decided by a pathologist and a radiologist. The algorithm that comes closest to ground truth is the winner.

Compare the decision support systems for three imaging research domains: Clinical Imaging, Pre-clinical Imaging, and Digital Pathology

•Leverage and extend the above platform and data systems to validate and share algorithms, support precision medicine and clinical decision-making tools, including correlation of imaging phenotypes with genomics signatures. The aims are fashioned as four complementary “Pilot Challenges”.
Four complimentary pilot challenges:

Clinical Imaging:

•QIN image data for several modalities/organ systems are already hosted on TCIA. Pilot challenge projects are being explored for X-ray CT, DWI MRI and PET CT similar to the HUBzero pilot CT challenge project.

Pre-clinical / Co-clinical Imaging:

•Leveraging the Mouse Models of Human Cancer Consortium (MHHCC) Glioblastoma co-clinical trials with associated ’omics data sets from the Human Brain Consortium. This proof of concept will focus on bringing together ‘omics and imaging data into a single platform.

Digital Pathology Clinical Support:

•Leveraging Aims1-3 develop open source image analysis algorithms which complement ‘omics data sets and provide additional decision support.

Community Sharing:

 

and support precision medicine and clinical decision making tools, including correlation of imaging phenotypes with genomics signatures.

develop knowledge extraction tools

Medical Imaging Challenge Infrastructure (MedICI), a system to support medical imaging challenges.

and comparing the decision support systems for clinical imaging, co-clinical imaging, and digital pathology,

Medical Image Computational and computer-assisted Intervention: MICCAI

Interventions in tumors, cardiology, etc that are image-based

Mass General will guide the pilots

Ground truth: find the compatibility of the informatics that we need to run pilots. Take images out of TCIA, CGA, clinical data and compare them.

Jasharee doing MICCAI Challenge in Munich. Segmentation of nuclear imaging in pathology. Combined radiology and pathology classification.

Want to be able to say that these informatics allow us to compare the pathology, rad, co-clinical findings.

Document the approach, technology, application to do a MICCAI challenge the way Jaysharee does it. See their order of march.

Challenges: read one-page document. We want to use pathology images in the challenges. The tool used to display the markup and annotations (for the pathology images) is caMicroscope. There will be a challenge in which animal model data will be used. Give people images they have never seen before and develop algorithms (like to circle all the nuclei). Ground truth decided by a pathologist and a radiologist. The algorithm that comes closest to ground truth is the winner.

Compare the decision support systems for three imaging research domains: Clinical Imaging, Pre-clinical Imaging, and Digital Pathology

•Leverage and extend the above platform and data systems to validate and share algorithms, support precision medicine and clinical decision-making tools, including correlation of imaging phenotypes with genomics signatures. The aims are fashioned as four complementary “Pilot Challenges”.

 

...

Pilot challenges to compare the decision support systems for three domains.

...